oids: Towards An Ethical Basis for Autonomous System Deployment

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Transcription:

Humane-oids oids: Towards An Ethical Basis for Autonomous System Deployment Ronald C. Arkin CNRS-LAAS/ Toulouse and Mobile Robot Laboratory Georgia Tech Atlanta, GA, U.S.A.

Talk Outline Inevitability of the development of autonomous robots capable of lethal force Humanity s persistent failings in battlefield ethics An alternate view: Humane-oids - Robots that can potentially perform more ethically in the battlefield than humans Roboethics Atelier 2

Background: Personal Defense Funding Experience DARPA Real-time Planning and Control/UGV Demo II Tactical Mobile Robotics Mobile Autonomous Robotics Software Unmanned Ground Combat Vehicle (SAIC lead) FCS-Communications SI&D (TRW lead) MARS Vision 2020 (with UPenn,USC, BBN) US Army Applied Aviation Directorate U.S. Navy (NAVAIR) Army Research Institute ONR/Navy Research Labs: AO-FNC Corporate: SAIC Private Consulting for DARPA and Foster Miller Roboethics Atelier 3

Pre-emptive emptive Strike The debate here is not about whether or not we should have wars Rather the question is: Assuming wars will continue, what is the appropriate role of robotics technology? Roboethics Atelier 4

Current Motivators for Military Robotics Force Multiplication Reduce # of soldiers needed Expand the Battlespace Conduct combat over larger areas Extend the warfighter s reach Allow individual soldier s to strike further The use of robotics for reducing ethical infractions in the military does not yet appear anywhere Roboethics Atelier 5

Differentiated Uses for Robots in warfare Robot as a Weapon: Extension of the warfighter Standard Practice for today Ethics of standard battlefield technology apply This will not be discussed further in this talk from an ethical perspective Robot as an Autonomous Agent Application of lethal force How can ethical considerations be applied Roboethics Atelier 6

Will Robots be Permitted to Autonomously Employ Lethal Force? Several robotic systems already use lethal force: Cruise Missiles, Navy Phalanx, Patriot missile, even land mines by some definitions. Depends on when and who you talk to. Will there always be a human in the loop? Fallibility of human versus machine. Who knows better? Despite protestations to the contrary from all sides, the answer appears to be unequivocally yes. That is not the end of the discussion. Roboethics Atelier 7

Perspective: Future Combat Systems 127 Billion $ program (recently delayed): Biggest military contract in US history Transformation of Army Driven by Congressional mandate that by 2010 that one-third of all operational deep strike aircraft be unmanned and by 2015 one-third of all ground combat vehicles are unmanned What are the ethical implications of all this? Roboethics Atelier 8

Future Combat Systems (FCS) Roboethics Atelier 9

Representative US Military Robotic Programs Note: All video material that follows is classified for public release, distribution unlimited or downloaded from internet. All credit for the videos shown vests with the system developer. Roboethics Atelier 10

Boeing Unmanned Combat Aerial Vehicle (UCAV) Roboethics Atelier 11

GDRS Experimental Unmanned Vehicle (XUV) Roboethics Atelier 12

USMC Tactical Unmanned Ground Vehicle (TUGV) Roboethics Atelier 13

UAV Launch from MDARS (SPAWAR) Roboethics Atelier 14

UUVAutonomous Reconnaissance, Surveillance & Docking Woods Hole Oceanographic Institution Roboethics Atelier 15

Current Deployments Roboethics Atelier 16

So where does ethics fit? One possible view Roboethics Atelier 17

Humane-oids (Not Humanoids) Conventional Robot Weapon Roboethics Atelier 18

Humane-oids (Not Humanoids) Conventional Robot Weapon Humane-oid What s the difference? Roboethics Atelier 19

Humane-oids (Not Humanoids) Conventional Robot Weapon Humane-oid What s the difference? AN ETHICAL BASIS Roboethics Atelier 20

Underlying Thesis: Robots can ultimately be more humane than human beings in military situations Roboethics Atelier 21

Robots that have an ethical stance Right of refusal Monitor and report behavior of others Incorporate existing battlefield and military protocols Geneva Convention Rules of Engagement Codes of Conduct This is not science fiction but spirit of Asimov s laws applies. The robot is bound by the military code of conduct, not Asimov s laws. Roboethics Atelier 22

Why is this needed? Can robots outperform humans on an ethical basis? WARNING: Many of the following slides are extremely graphic illustrating man s inhumanity to man in warfare Roboethics Atelier 23

U.S. - Abu Ghraib Roboethics Atelier 24

British - Iraq Roboethics Atelier 25

Germany - Holocaust Roboethics Atelier 26

Japan World War II Roboethics Atelier 27

Cambodia Roboethics Atelier 28

Rwanda Roboethics Atelier 29

U.S. My Lai, Vietnam Roboethics Atelier 30

Serbia Roboethics Atelier 31

What can robotics offer to make these situations less likely to occur? Is it not our responsibility as scientists to look for effective ways to reduce man s inhumanity to man through technology? Research in ethical military robotics could and should be applied toward achieving this end. How can this happen? Roboethics Atelier 32

Should soldiers be robots? Isn t that largely what they are trained to be? Should robots be soldiers? Could they be more humane than humans? Roboethics Atelier 33

Baby steps forward? A few ideas gleaned from two proposals I generated in this area 1. Non-lethal force for mob control 2. Ethical Battlefield Autonomous Systems It may sound oxymoronic but here I refer to robotic systems that are potentially more ethical than human warfighters Roboethics Atelier 34

Case 1: How can we avoid this? Kent State, Ohio, Anti-war protest 4 Dead May 1970 Roboethics Atelier 35

Non-Lethal Force in Crowd/Riot Control Goal: Use robotics to avoid fatalities as seen in: U.S. Kent State Anti-war protest Afghanistan Pakistan Cartoon Riots Numerous others Roboethics Atelier 36

Proposal: Cognitive Actuation: Agonistic Behavior for Robot-Human Interaction Can models of agonistic behavior, suitably embedded in a hybrid deliberative/reactive robotic architecture be used to defuse and manage human conflict? Can cognitive models of human affective state, both individual and collective (i.e., a mob mentality) be used to control action-selection to produce desirable outcomes in human-robot conflict without resorting to lethality? Roboethics Atelier 37

Natural Agonistic Systems Group behavior in flocking Deimatic behavior in the praying mantis Roboethics Atelier 38

Proposed Research Agenda 1. Develop cognitive models of human affective state that pertain to both individuals and mobs and use them to influence behavior selection consistent with producing desired changes in the surrounding human behavioral environment. 2. Create an agonistic subsystem for conflict resolution drawn from biological models, to deflect attacks before they occur or reflect them when they occur but without lethal force. 3. Create agonistic robotic behaviors to manage ( actuate ) humans in dangerous situations, permitting robots to induce changes in human behavior causing people to move out-of-harm s way, consistent with high-level goals. 4. Develop robot behaviors from existing crowd control protocols ensuring that rules-of-engagement and other doctrine are adhered to. 5. Unpredictablity is a hallmark characteristic for action selection throwing people off-guard to defuse the situation. Confrontational and appeasement behaviors will be created. 6. Incorporate cognitive models of human individuals and crowds to monitor the situation and evoke suitable behaviors as needed, drawn on emotional models of both mobs and individuals. Roboethics Atelier 39

Case 2: An Ethical Basis for Autonomous System Deployment Given: The robot acts as an intelligent but subordinate autonomous agent. Research is required to delineate the ethical implications for: 1. The robot reserves the right to make its own local decisions regarding the application of lethal force directly in the field, without requiring human consent at that moment, either in direct support of the conduct of an ongoing military mission or for the robot s own self-preservation. 2. The robot may be tasked to conduct a mission which possibly includes the deliberate destruction of life. The ethical aspects regarding the use of this sort of autonomous robot are unclear at this time and require additional research. Roboethics Atelier 40

Motivation Battlefield ethics has for millennia been a serious question and constraint for the conduct of military operations by commanders, soldiers, and politicians, as evidenced for example by the creation of the Geneva conventions, the production of field manuals to guide appropriate activity for the warfighter in the battlefield, and the specific rules of engagement for a given military context. Breeches in military ethical conduct often have extremely serious consequences, both politically and pragmatically, as evidenced recently by the Abu Ghraib incident in Iraq, which can actually be viewed as increasing the risk to U.S. troops there, as well as the concomitant damage to the United State s public image worldwide. If the military keeps moving forward at its current rapid pace towards the deployment of intelligent autonomous robots, we must ensure that these systems be deployed ethically, in a manner consistent with standing protocols and other ethical constraints that draw from cultural relativism (our own society s or the world s ethical perspectives), deontology (rightbased approaches), or within other related ethical frameworks. Roboethics Atelier 41

What is acceptable? Understand, define, and shape expectations regarding battlefield robotics Task 1: Generation of an Ethical Basis for the Use of Lethality by Autonomous Systems Conduct an ethnographic evaluation of the ethical basis for lethal autonomous systems in the battlefield. This requires interaction with military personnel, from robot operator s to commanders, as well as policymakers, robot designers, and the public. The result will be an elaboration of both current and future acceptability of lethal autonomous systems, clarifying and documenting what existing doctrinal thinking is in this regard. Interviews, survey instruments, literature reviews, and other sources will be used, resulting in a report and analysis of the requirements for the generation of an ethical code of conduct for autonomous systems and documentation justifying these requirements. Roboethics Atelier 42

What can be done? Artificial Conscience and Reflection Task 2: Computational implementation of an ethical code within an existing autonomous robotic system, i.e., artificial conscience. Provide enforceable Limits on acceptable behavior (behavioral governor) Drawing on ethical precepts from sources such as the Geneva convention and other related protocols and Task 1 results, the robot will consider in real-time the consequences of its actions in situ, and potentially lead to a robotic soldier that may operate in a more ethical and humane manner than even many human warfighters currently do. A reflective component will be elaborated to effectively evaluate the consequences of present actions in a more global context. Investigation into guilt as a robotic motivational (emotional) component. Roboethics Atelier 43

What should we do be next? Follow Bioethics Community Lead Hold Asilomar-style Conference Delineate All Classes of Robotics Research (not just military) on basis of ethical considerations Generate recommendations for each class Produce a roadmap and use existing societal and political bodies (e.g., IEEE) to further an ethical agenda Roboethics Atelier 44

For further information... Mobile Robot Laboratory Web site http://www.cc.gatech.edu/ai/robot-lab/ Contact information Ron Arkin: arkin@cc.gatech.edu IEEE RAS Technical Committee on Roboethics http://www-arts.sssup.it/ieee_tc_roboethics CS 4002 Robots and Society http://www.cc.gatech.edu/classes/ay2005/cs4002_spring/ Roboethics Atelier 45